We analyse the dynamics of convolutional filters' parameters of a convolutional neural networks during and after training, via a thermodynamic analogy which allows for a sound definition of temperature. We show that removing high temperature filters has a minor effect on the performance of the model, while removing low temperature filters influences majorly both accuracy and loss decay. This result could be exploited to implement a temperature-based pruning technique for the filters and to determine efficiently the crucial filters for an effective learning.
Thermodynamics modeling of deep learning systems for a temperature based filter pruning technique / Lapenna, M; Faglioni, F; Fioresi, R. - In: FRONTIERS IN PHYSICS. - ISSN 2296-424X. - 11:(2023), pp. 1145156-1145162. [10.3389/fphy.2023.1145156]
Thermodynamics modeling of deep learning systems for a temperature based filter pruning technique
Lapenna, M;Faglioni, F;
2023
Abstract
We analyse the dynamics of convolutional filters' parameters of a convolutional neural networks during and after training, via a thermodynamic analogy which allows for a sound definition of temperature. We show that removing high temperature filters has a minor effect on the performance of the model, while removing low temperature filters influences majorly both accuracy and loss decay. This result could be exploited to implement a temperature-based pruning technique for the filters and to determine efficiently the crucial filters for an effective learning.File | Dimensione | Formato | |
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